Constructing single-atom nanozymes (SAzymes) with densely exposed and dispersed
double metal-N x catalytic sites for pollution remediation remains rare and challenging …

Designing single-atom nanozymes with densely exposed metal atom active sites and
enhancing catalytic activity to detect pollutants remain a serious challenge. Herein, we …

Nanozymes are attractive alternatives to natural enzymes due to their high stability and low
cost. However, it is still a great challenge to acquire highly active, specific, and multi …

Single atom metal-nitrogen-carbon (MNC) nanomaterials are recognized as a class of
promising candidates alternatively to natural enzymes, but are still restricted by the limited …

Wastewater rich in compound pollution often posed serious environmental burden, not only
for the disposal difficulties, but also with a large amount of energy consumption. Recently, an …

In nature, enzymatic reactions occur in well-functioning catalytic pockets, where substrates
bind and react by properly arranging the catalytic sites and amino acids in a three …

Learning and studying the structure–activity relationship in the bio‐enzymes is conducive to
the design of nanozymes for energy and environmental application. Herein, Fe single‐atom …

Due to robustness, easy large-scale preparation and low cost, nanomaterials with enzyme-
like characteristics (defined as 'nanozymes') are attracting increasing interest for various …

Compared with natural enzymes, nanozymes have advantages such as high stability, low
cost, and a broad application prospect. However, due to the low catalytic activity of …

Pursuing effective and generalized strategies for modulating the electronic structures of
atomically dispersed nanozymes with remarkable catalytic performance is exceptionally …